International Journal of Energetic Materials
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International Journal of Energetic Materials

Focus & Scope

About the Journal

International Journal of Energetic Materialsis a peer-reviewed journal that establishes an international forum for all aspects of energetic materials. Journal focuses on the emerging trends in the field of propellants, thermal protection material and detonation. International journal of energetic material publishes good quality original research articles and review papers.

All contributions to the journal are rigorously refereed and are selected on the basis of quality and originality of the work. The journal publishes the most significant new research papers or any other original contribution in the form of reviews and reports on new concepts in all areas pertaining to its scope and research being done in the world, thus ensuring its scientific priority and significance.

Focus & Scope

  • Energetic Materials Chemistry and Design: Research on the chemistry, molecular structure, physicochemical properties, formulation principles, and performance relationships of energetic materials, with emphasis on safe scientific characterization and materials development.
  • Propellants and Energetic Formulations: Studies on solid, liquid, hybrid, and composite propellant systems; binders, plasticizers, oxidizers, additives, compatibility, aging, mechanical behavior, and formulation stability for aerospace and industrial applications.
  • Pyrotechnic and Reactive Materials: Research on pyrotechnic compositions, reactive materials, ignition behavior, heat generation, combustion characteristics, thermal response, and controlled energetic applications in engineering and industry.
  • Combustion, Deflagration, and Detonation Science: Fundamental and computational studies of combustion, flame propagation, deflagration-to-detonation phenomena, shock interactions, reaction kinetics, pressure development, and energy-release mechanisms in energetic systems.
  • Thermal Decomposition and Reaction Kinetics: Research on thermal stability, decomposition pathways, reaction mechanisms, activation energies, heat-release behavior, aging, and kinetic modeling using calorimetric and thermoanalytical methods.
  • Sensitivity, Stability, and Safety Assessment: Studies on impact, friction, electrostatic, shock, thermal, and other sensitivity characteristics; chemical and physical stability; compatibility; hazard classification; risk assessment; and scientifically validated methods for safe handling and storage.
  • Energetic Materials Characterization: Research using spectroscopy, microscopy, thermal analysis, diffraction, chromatography, mechanical testing, computational analysis, and related methods to characterize composition, morphology, structure, thermal behavior, and material performance.
  • Computational Chemistry and Molecular Modeling: Studies using density functional theory, molecular dynamics, quantum chemistry, molecular orbital calculations, thermochemical modeling, and computational screening to understand energetic-material structure, stability, reactivity, and performance.
  • Nanoenergetic and Advanced Energetic Materials: Research on nanoscale energetic systems, nanocomposites, metastable intermolecular composites, functional additives, advanced oxidizers, high-energy-density materials, and engineered microstructures with improved controllability and material performance.
  • Thermal Protection and High-Temperature Materials: Studies on thermal protection systems, ablative materials, heat-resistant composites, refractory materials, coatings, insulation systems, and materials designed to withstand extreme thermal and reactive environments. The journal specifically identifies thermal protection materials as a core area.
  • Energetic Material Processing and Manufacturing Science: Research on material preparation, particle engineering, mixing, granulation, coating, curing, consolidation, additive manufacturing, quality control, and process monitoring, with emphasis on reproducibility, safety, and materials performance.
  • Ignition and Combustion Diagnostics: Studies on ignition mechanisms, flame characteristics, combustion efficiency, pressure-time behavior, spectroscopic diagnostics, high-speed imaging, thermal diagnostics, and non-invasive measurement techniques for energetic-material research.
  • Hazard Testing and Process Safety: Research on thermal runaway, fire and explosion hazards, process-safety assessment, calorimetry, accident prevention, hazard identification, consequence analysis, and risk-management frameworks relevant to energetic materials and reactive systems.
  • Detection and Sensing of Energetic Materials: Studies on spectroscopic, optical, electrochemical, biosensing, remote-sensing, and machine-learning-assisted approaches for the safe detection, identification, monitoring, and screening of energetic substances.
  • Environmental Impact and Sustainable Energetic Materials: Research on environmentally preferable energetic materials, reduced-toxicity formulations, emissions, residue characterization, lifecycle considerations, waste management, environmental monitoring, remediation, and sustainable material alternatives.
  • Aging, Reliability, and Life-Cycle Assessment: Studies on long-term stability, chemical aging, mechanical degradation, environmental exposure, storage effects, shelf-life assessment, reliability prediction, and condition monitoring of energetic materials and associated components.
  • Energetic Materials for Aerospace and Space Applications: Research on energetic and thermal-management materials used in aerospace propulsion, launch systems, spacecraft, and related engineering environments, focusing on materials science, reliability, performance assessment, and safety.
  • Civil and Industrial Applications of Energetic Materials: Studies on scientifically controlled uses of energetic and reactive materials in mining, construction, demolition, geotechnical engineering, materials processing, and other regulated industrial applications, with particular emphasis on safety and environmental impact.
  • Artificial Intelligence and Data-Driven Energetic Materials Research: Research applying machine learning, artificial intelligence, cheminformatics, predictive modeling, optimization, and materials informatics to property prediction, hazard assessment, formulation screening, diagnostics, and experimental design.
  • Emerging and Interdisciplinary Energetic Materials Research: Research integrating energetic materials with chemistry, materials science, chemical engineering, computational science, aerospace engineering, thermal science, environmental science, sensing technologies, and safety engineering where energetic-material science is the principal contribution.

Open Access Statement

International Journal of Energetic Materials is an open-access publication which provides immediate open access to its content, supporting a greater global exchange of knowledge. All published works are freely available to a worldwide audience upon publication. Publication is subject to an article processing charge (APC), ensuring articles remain freely accessible online in perpetuity under a Creative Commons license.

Publication Ethics Statement

International Journal of Energetic Materials fully adheres to the Code of Conduct of the Committee on Publication Ethics (COPE) and its Best Practice Guidelines. The editorial team enforces a rigorous peer-review process with strict ethical policies to ensure the addition of high-quality scientific studies to scholarly publication.

Content Disclaimer

All information, opinions, and views mentioned in International Journal of Energetic Materials represent the authors and the contributions of the articles. Publication of articles, advertisements, or product information does not constitute endorsement or approval by the journal. The data and opinions appearing in the articles are the responsibility of the contributors concerned.

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